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The neo1 exoskeleton for the upper extremities: myoelectric control, wearable under clothing, ideal for paralysis caused by stroke or plexus injuries. neo1 World's first under-clothing myoelectric exoskeleton for the upper extremity With neo1, Vincent Systems presents the breakthrough myoelectric exoskeleton designed specifically for users with limited upper extremity functionality, especially to compensate for paralysis caused by stroke and plexus injuries. This innovative technology uses advanced myoelectric control in conjunction with powerful micromotors in the elbow and hand areas to help users with their mobility and independence challenges due to their limitations. The myoelectric exoskeleton uses state-of-the-art sensor technology that detects and interprets the electrical signals generated by the user's muscles. By analyzing these signals, the exoskeleton intuitively responds to the user's movement intentions and allows them to regain control over their affected limbs. One of the most important features of this exoskeleton is its lightweight and ergonomic design. It is the world's first actively controlled exoskeleton that can be worn under the user's clothing due to its slim shape that is adapted to the body. This feature opens up a whole new horizon of applications as the system can be inconspicuously integrated into everyday life. Vincent Systems emphasizes comfort and adaptability, allowing users to wear the device for extended periods of time. The exoskeleton is customized to fit each user's anatomy. The control system is also user-specific, optimally adjusted for each wearer through a variety of parameters depending on the severity of the paralysis and the available muscle signals. In addition, the myoelectric exoskeleton offers different levels of support, allowing the user to gradually increase muscle activation and improve strength and control over time. This progressive approach promotes neuroplasticity and thereby also supports active rehabilitation. In the long term, positive effects are expected with regard to the reduction of phantom limb pain as well as a preventive effect with regard to the avoidance of overuse symptoms. neo1 we love perfection

All types of gloves to customize your hand prosthesis. Cosmetic, thermal, or work gloves for greater flexibility in everyday life. Textile gloves & Accessories - GF glove factory GmbH GF. COSMETIC GLOVE - Cosmetic gloves GF. COLOR GLOVE - Unicolor gloves GF. THERMO SLEEVE - Textile sleeve for the prosthetic socket GF. WORK GLOVE - Work gloves GF glove factory GmbH GF. cosmetic gloves GF. color gloves

Technical documentation, flyers, and installation instructions from Vincent Systems – for informational purposes only, intended for professionals. Downloads Area for registered partners The data sheets, flyers and assembly instructions provided are intended solely for the information of specialist circles and informal use. Any further publication requires the consent of Vincent Systems GmbH. VINCENTevolution5 VINCENTpartial4 VINCENTyoung3+ VINCENTwrist VINCENTpartial passive VINCENTpartial body Vpower flex USB-C VINCENTwork VINCENTaqua Emg1 Emg2

VINCENTevolution5 Humanoid Robotics Cutting-edge robotics meets high-tech hand prosthetics At Booth B59 in Hall 11 of the Federal Ministry of Research, Technology, and Space (BMFTR) at the 2026 Hannover Messe, modern robotics and highly advanced bionic hand systems come together in a joint technological application. The latest generation of the ARMAR robot family, developed at the Karlsruhe Institute of Technology (KIT), impressively demonstrates how closely these two fields can work together. The ARMAR 7 service robot, developed at KIT, was equipped with two hand systems from the Karlsruhe-based company Vincent Systems GmbH as part of a research collaboration. The VINCENTevolution5 hand systems were equipped with a new interface and software for this application. The humanoid robots of the ARMAR family are designed to assist people in their daily lives and at work. ARMAR-7 has recently begun using our bionic VINCENT hands for this purpose and benefits from their proven suitability for everyday use, which is reflected in an extremely robust construction, high gripping force, and precise control. The robotic hands are made of high-strength aluminum and, optionally, titanium, which is coated with HTV silicone. In the hand, which weighs only 450g, six powerful motors control the 6 iDOF and 11 joints, enabling gripping forces of up to 45N to be generated at each individual fingertip. The robust, waterproof design (IP68) as well as the anatomical shape and size make the VINCENTevolution5 the ideal hand for humanoid robotics. ARMAR-7 with VINCENTevolution hand systems

Specialized software solutions for controlling and adjusting prostheses and exoskeletons – intuitive operation and adjustment. Software for configuring and adjusting the prostheses VINCENTmobile The VINCENTmobile app comes standard on a tablet with every myoelectric hand prosthesis. It can be used to make user-specific settings as well as to train the numerous grips of the VINCENT hand prostheses.

Innovative virtual reality training system for rehabilitation and prosthesis control: Maximum motivation and therapeutic effect. VINCENTvr VR based training system Vincent Systems harnesses the potential of virtual reality (VR) not only for hand prostheses but also for their exoskeleton systems. Using VR as a training system, individuals can practice controlling and maneuvering the exoskeleton or prosthesis, allowing them to become familiar with its functionality in a virtual environment before using it in real-life situations. Furthermore, VR serves as an effective tool for rehabilitation. By creating virtual scenarios that mimic daily activities, patients can undergo targeted training sessions, improving their motor skills and enhancing their ability to perform tasks. Additionally, virtual mirror training in VR for phantom limb pain treatment enables users to visualize the movement of their impaired limbs in conjunction with their healthy hand’s motions. This helps patients retrain their neural pathways, facilitating the integration of the exoskeleton into their body schema and promoting a more intuitive and natural movement. By immersing patients in virtual environments and providing sensory feedback, the system helps alleviate the sensation of pain in the absent limb. Vincent Systems' integration of VR into exoskeleton and prosthesis training, rehabilitation, and mirror training offers a comprehensive solution for individuals seeking to enhance their mobility and regain independence. The combination of cutting-edge technology and immersive experiences paves the way for improved outcomes in the field of prosthesis and orthosis control as well as rehabilitation.

Tim shows how he wears his VINCENTevolution prosthesis openly: high-tech, customizable, and stylish—for everyday life and special occasions. Close Foto: Kira Flora High-tech you can touch: Why I wear my prosthesis openly By Tim Hello! I’m Tim, 33 years old, living with my wife in Stuttgart, and I have been a prosthesis user for 10 years. I have always been a very active and athletic person—even the accident that left me wearing a prosthetic arm for the past 10 years hasn't changed that. Nevertheless, such an event brings with it a number of new challenges. In addition to coping with everyday life, I also had to get used to a new body image. Suddenly, you no longer look like everyone else, which can be particularly difficult for young people. As an engineer, I have always been very interested in technology. So it was clear to me from the outset that my prosthesis should be visible. Personally, I have always preferred to wear it openly rather than covering it with sleeves or gloves. Today, I wear a myoelectric upper arm prosthesis with an active elbow and a VINCENTevolution from Vincent Systems – all in black. The “robotic” look of my left arm often sparks curiosity and fascination. Because I wear my prosthetic arm openly, people frequently approach me with questions. I can then decide for myself whether I feel like explaining my bionic prosthetic hand or not. B eyond public perception, aesthetics also play an important role in personal acceptance. The fact is, if you do not feel comfortable with your prosthesis, you are less likely to wear it consistently. This may lead to doing certain tasks without the prosthesis, even though a myoelectric prosthetic arm would actually be well suited for them. Fortunately, today there are many ways to customize the appearance of a prosthesis according to personal preferences. Often, prosthetists can incorporate visual customization directly during the fabrication of the socket. Covers allow for interchangeable looks for different occasions, and prosthetic hands are now available in an increasing variety of colors. The prosthetic hands from Vincent Systems, for example, are offered in numerous color combinations for both aluminum and silicone components. For my wedding this spring, I wore a light-colored suit. Since my regular prosthetic hand created a strong contrast, I borrowed a VINCENTevolution bionic hand in cream white and gold. The prosthesis blended perfectly with my outfit and complemented the look for this special occasion. The design philosophy of Vincent Systems has always emphasized open design. For their commitment to developing prosthetic hands that combine advanced functionality with visible high-tech aesthetics, without cosmetic gloves, the company received the German Design Award in 2014. Personally, I am very grateful to wear such a high-tech prosthetic device, one that I can fully rely on in everyday life as well as on special occasions. At the same time, I am excited about the future of modern prosthetic technology and look forward to the innovations yet to come.

How to contact Vincent Systems: Address, telephone number, email address for support and sales of hand prostheses and exoskeletons. Contact Vincent Systems GmbH Albert-Nestler-Str. 28-30 76131 Karlsruhe Germany General requests and support: Phone: +49 721 480 714 0 Fax: +49 721 480 714 99 E-Mail: service@vincentsystems.de Technical support for orthopedic technicians: Phone: +49 721 47 00 4444 Service hours: Mon - Thurs : 9am - 12 pm and 1pm - 4:30pm (CET) Fri: 9a m - 12pm and 1pm - 3p m (CET) Orders: E-Mail: sales@vincen tsystems.de Fax: +49 721 480 714 99 Imprint Information duty according to § 5 TMG. Vincent Systems GmbH CEO: Dr. Stefan Schulz Albert-Nestler-Str. 28-30 76131 Karlsruhe Germany Phone: +49 721 480 714 0 Fax: +49 721 480 714 99 E-Mail: service @vincentsystems.de Register court: AG Mannheim Register number: HRB 706896 VAT ID: DE 265276770

Pictures of the Vincent Systems booth at the OTWorld trade fair for orthopaedic technicians and users in 2022. OTWorld 2022 Close

Technical data and more in the archive of all Vincent Systems hand prosthesis models - from the Fluidhand to the VINCENTevolution. Predecessor models Our previous models are no longer available. Of course, maintenance and repair will still be done in consultation with your technician. VINCENTevolution1 VINCENTevolution2 VINCENTevolution3/3+ VINCENTevolution4 VINCENTyoung1 VINCENTyoung2 VINCENTpartial1 VINCENTpartial2 VINCENTpartial3 / 3+ Current products

You can train the numerous grasps of the VINCENT hand prostheses by following the grasp scheme illustrated in the VINCENTmobile App. Close Up VINCENTmobile App TRAINING The grasping scheme is illustrated here. Additionally, the grasp the prosthesis is currently in as well as an animation of how the prosthesis fingers are supposed to move is displayed here. Here you can train the numerous grasps of the VINCENT hand prostheses. Up

Support area for orthopedic technicians: Certification courses, partner portal, declarations of conformity according to MDR. Technical area Technical support for orthopedic technicians: +49 721 47 00 44 44 Service hours: Mon - Thurs: 9am - 12pm and 1pm - 5pm, Fri: 9am - 12pm and 1pm - 3pm (CET) Certification course Area for registered partners Area for cost bearers Declaration of conformity - MDR

2000 - Fluidhand 3 Up With the third generation of the Fluidhand, Schulz transferred the technology of flexible fluid actuators to a hand prosthesis. To achieve higher grasping forces, the drives were modified for grasping even heavy objects. The unfolded silicone tubes reinforced with fabric were replaced by miniature folded bellows, which in turn were encased in fabric and attached to aluminum joints in the folds by nylon threads to keep their shape. Three drive elements in each finger, with the two distal bellows coupled together, and two drives in the thumb allow 14 joint axes to move in this hand, equivalent to 14 DOF at 10 iDOF. The fluid actuators were driven by means of miniature hydraulics. The control system, consisting of pump, valve, electronics, sensors and tank, was connected to the prosthesis via a hose approximately 1 m long. The hydraulic unit was the size of a portable telephone and was worn on the belt. The load-bearing structure of the prosthetic hand was modeled on the skeleton of the human hand. The radiating metacarpal bones, which merge into the long fingers, are moveably mounted in the carpus, and spring elements are located between the metacarpal bones to elastically stretch the metacarpus. This design achieves a naturally acting passive abduction of the long fingers, with a positive effect on the adaptability of the hand during grasping and on the natural feel of the hand. The bellows drives are inflated with fluid, usually water, at a pressure of up to 6bar when a finger joint is moved. The expanding bellows thereby flexes the finger joint. The extension of the joint is achieved partly by the suction of the drive, partly by an additional elastic restoring band. The weight of the prosthesis is 190g, the grasping force on the finger is approx. 5N. In this prosthesis functional sample, all fingers were simultaneously filled and deflated via the hydraulic hose to investigate hand function and adaptive grasping. As a cosmetic cover and to create a functional surface, a customized latex glove was fabricated. A first functional sample was successfully tested at the Orthopedic University Hospital in Heidelberg. Schulz, by now head of an interdisciplinary research group, was now able to establish work on a hand prosthesis as a program-oriented research priority. Up

In her user story, elementary school teacher Dorothee shares how she confidently teaches in the classroom with her VINCENTevolution hand prosthesis. Close My prosthesis in the classroom By Dorothee Hi, I'm Dorothee, I wear a forearm prosthesis, and I'm a primary school teacher. My prosthesis was never an obstacle to choosing this profession. What adults might only consider after giving it some thought is actually no problem for children. Children approach you without prejudice, but they also blurt out their questions directly. Is that a problem? No, otherwise this profession wouldn't be right for me. But my development in dealing with these many encounters and the prosthesis has changed with the VINCENTevolution hand prosthesis. For a long time, I wore a myoelectric forearm prosthesis with a silicone cover, which meant that it looked very realistic cosmetically and was not always immediately noticeable, but often only at second glance. This was pleasant, because I was not immediately the center of attention. The typical questions were, for example: “What is that?”, “Why do you have that?”, “Where is your real hand?”, “Why don't you have a real hand?”, “Is there a bone underneath?”, “Does it hurt?”, ... and only later: “How do you open it?” I answered the questions in more detail at times and more briefly at others when I had to repeat myself often. After getting to know the class for the first time, the focus then shifted more to the learning content. Nevertheless, the children saw exactly what I was doing and how I was doing it. The grip I had at the time supported me, but it wasn't always the best grip for many different things in terms of ergonomics and functionality, so I also had to use my other hand a lot for support. There came a time when my existing hand was overloaded. So I was open to advice on the prosthetic options now available on the market. The VINCENTevolution from Vincent Systems impressed me at the time with its high-tech features, numerous functions, high reliability when gripping, and cool appearance. Of course, it took some getting used to learning and being able to use so many grips when you're in a situation where you need to act quickly. I had to give myself a little more time and be patient until it became routine and a real benefit to my everyday life! From my initial attitude of “a prosthesis is an option, but not a necessity,” I came to realize with my new robot-style hand that “Hey! The prosthesis really helps me!” I noticed, for example, that the apple stayed in my hand and didn't slip out. Or that I could hold the book well without twisting and cramping my shoulder. Many more moments followed, so that I began to enjoy consciously using my prosthesis. At first, I still wore the hand prosthesis with a skin-colored glove cover. To be honest, it bothered me when I looked down and saw the black hand standing out so much. When Vincent Systems launched the different color options on the market, I was happy and chose the skin-colored version. What was interesting was how things developed at school. The children immediately asked more questions about the technology. “How does it work?”, “How can you change the grip?”, “Can you write with it?”, “Can you open this bottle?”, “Can you go in the water with it?” etc. So it was no longer so interesting why I wear a prosthesis, but what it can do and how it works. The focus was now on the technology or the thing itself and not directly on me, which I found very pleasant. The children's confidence in dealing with the “robot hand” strengthened and changed my perspective, and I now occasionally wear a loaner hand in a different color, not just my skin color. I myself became more experienced in using the grips and at the same time more confident with the many encounters and questions. When I have a new class and we get to know each other, there is always a question and answer session about the prosthesis. Anyone who wants to can touch it. Until their thirst for knowledge is quenched, it is impossible to continue with the lesson anyway. The students know what I am wearing, and it is normal at our school that I live and teach with a robotic hand.

Overview of registered patents and property rights in the field of hand prosthetics and exoskeletons – Innovation & Quality from Vincent Systems. Patents All our products are registered and protected by the following United States patents: US8491666: VINCENTevolution1, VINCENTevolution3, VINCENTevolution3+, VINCENTevolution4, VINCENTevolution5, VINCENTpartial3, VINCENTpartial3+, VINCENTpartial4, VINCENTyoung3, VINCENTyoung3+ US9072616: VINCENTevolution2, VINCENTpartial2, VINCENTyoung2 US12440355: emg US11517454 and by the following German and European patents: DE102014011554, DE102017005765, DE102016014090, DE102017010840, DE102017007794, DE102008056520, DE202014003565, DE202017000172, DE102017005761, DE102017005762, DE102017005764, DE102012005041, DE102020119343, DE102017010839, EP2364129 and others.

All technical information on the prosthesis, battery status, and user statistics with the number of in-use grasps can be found here. Close VINCENTmobile App HOME - Prosthesis : all technical information on the prosthesis, battery status, and user statistics with the number of in-use grasps can be found here. - About: all technical information about the app can be found here. SENSORS - Display of the individual sensor signals. - Sensor settings. Up

Vincent Systems GmbH from Karlsruhe: Specialist in myoelectric hand prostheses and exoskeletons, active since 2009, internationally oriented. Vincent Systems is a young, dynamic, internationally oriented company from Karlsruhe with customers in Europe, Asia and North America. Vincent Systems GmbH was founded in May 2009 by CEO Dr Stefan Schulz.

2006 - Fluidhand 9 Up The Fluidhand 9 has 5 drives of different sizes. The base joints of the index finger and middle finger are equipped with stronger drives. The elastic fluid tank is located in the wrist. When the fingers are emptied, they are stretched and the fluid is pumped from the finger joints into the elastic tank in the wrist, bending the wrist and opening the hand further. The pump is noise-isolated and free-swinging in a CFRP tank; valves and controls are located in the metacarpus, which is completely covered with CFRP. The thumb with a drive in the base pivots between flat hand and opposition position to the three-point grip. For reasons of optimizing speed and tank size, separate drives for the ring and little fingers were omitted, but these two long fingers are actively moved by coupling with the base joint of the middle finger. The control valve for the thumb drive is located in the distal thumb phalanx. The wrist with a 4-pole coaxial insert is compatible with all stem systems, control is via two EMG sensors, and it is possible to switch between several grip types by means of short switching signals. This last version of the Fluidhand for the time being also features a Bluetooth interface for mobile devices as well as a vibrotactile sense of touch. The Fluidhand 8 is currently the last further development of the multi-articulating hydraulic hand based on flexible fluid actuators. The aim of this hand version was to provide a pre-product ready for series production for a hand prosthesis commercially available on the fitting component market and to convince potentially interested parties of the development for marketing. The bionic hand prosthesis, which is already suitable for everyday use, was manufactured and tested in a small series. It is thus the first bionic multi-articulating hand prosthesis and also the first hydraulic hand prosthesis.

On this page, we provide you with a selection of images and press releases for download. Press material Here, we provide you with a selection of images and press releases for download. We will be happy to send you more images to support your editorial press work on request. How to use the press material: You may use the offered content free of charge in the context of editorial reporting in connection with Vincent Systems. Any misleading, promotional use will be considered illegal use. Any publication of images and press texts must be accompanied by the copyright notice "Photo: Vincent Systems" or "Text: Vincent Systems". You are welcome to send sample copies to the following address: Vincent Systems GmbH Dr. Stefan Schulz Albert-Nestler-Straße 28-30, 76131 Karlsruhe Press release June 2019: Eine Roboterhand revolutioniert den Prothesenmarkt (A robotic hand revolutionizes the prosthetic market )